LiMC² is pioneering adaptive architecture by engineering materials that allow buildings and infrastructure to sense, respond, and adapt to changing environmental and functional conditions. Our research explores concepts such as bistable kinetic shading systems that adjust to light and temperature, embedding dynamic elements that improve energy performance and reduce environmental impact. Beyond energy efficiency, these living multifunctional materials integrate structural health-monitoring capabilities, enhancing the resilience and longevity of both new and aging structures while advancing the principles of sustainable design.

We envision a paradigm shift where responsive material systems are conceived in tandem with their architectural applications. Rather than developing materials in isolation, we interweave material design, performance assessment, manufacturing strategies, and control requirements to create systems tailored for adaptive architecture. Our research draws on the intersection of materials science, architecture, chemistry, and mechanical engineering. By employing chemical design, biomimicry, and spatial patterning, we engineer materials capable of a wide spectrum of adaptive functions specifically suited for smart infrastructures. These scientific and engineering strategies target every stage of the building life cycle, from construction and performance to long-term maintenance and technology adoption, positioning these materials as critical enablers that will:

• Reduce environmental impact by lowering CO₂ emissions
• Improve building performance through responsive materials
• Enhance structural health monitoring and extend the lifespan of aging infrastructure
• Advance resilient, adaptive infrastructure that strengthens sustainability and livability across the built environment